myDict['op_wb'] = op_wb_str
if d.operands.memOperand:
- myDict['mem_acc_size'] = d.operands.memOperand.mem_acc_size
myDict['mem_acc_type'] = d.operands.memOperand.mem_acc_type
elif isinstance(d, dict):
subst_dict = {"name": self.base_name,
"func": func,
"reg_idx": self.reg_spec,
- "size": self.size,
"ctype": self.ctype}
if hasattr(self, 'src_reg_idx'):
subst_dict['op_idx'] = self.src_reg_idx
code = self.read_code % subst_dict
- if self.size != self.dflt_size:
- return '%s = bits(%s, %d, 0);\n' % \
- (self.base_name, code, self.size-1)
- else:
- return '%s = %s;\n' % \
- (self.base_name, code)
+ return '%s = %s;\n' % (self.base_name, code)
def buildWriteCode(self, func = None):
- if (self.size != self.dflt_size and self.is_signed):
- final_val = 'sext<%d>(%s)' % (self.size, self.base_name)
- else:
- final_val = self.base_name
subst_dict = {"name": self.base_name,
"func": func,
"reg_idx": self.reg_spec,
- "size": self.size,
"ctype": self.ctype,
- "final_val": final_val}
+ "final_val": self.base_name}
if hasattr(self, 'dest_reg_idx'):
subst_dict['op_idx'] = self.dest_reg_idx
code = self.write_code % subst_dict
%s final_val = %s;
%s;
if (traceData) { traceData->setData(final_val); }
- }''' % (self.dflt_ctype, final_val, code)
+ }''' % (self.dflt_ctype, self.base_name, code)
def __init__(self, parser, full_name, ext, is_src, is_dest):
self.full_name = full_name
self.eff_ext = self.dflt_ext
if hasattr(self, 'eff_ext'):
- self.size, self.ctype, self.is_signed = \
- parser.operandTypeMap[self.eff_ext]
+ self.ctype = parser.operandTypeMap[self.eff_ext]
- # note that mem_acc_size is undefined for non-mem operands...
+ # note that mem_acc_type is undefined for non-mem operands...
# template must be careful not to use it if it doesn't apply.
if self.isMem():
- self.mem_acc_size = self.makeAccSize()
- if self.ctype in ['Twin32_t', 'Twin64_t']:
- self.mem_acc_type = 'Twin'
- else:
- self.mem_acc_type = 'uint'
+ self.mem_acc_type = self.ctype
# Finalize additional fields (primarily code fields). This step
# is done separately since some of these fields may depend on the
error('Attempt to read integer register as FP')
if self.read_code != None:
return self.buildReadCode('readIntRegOperand')
- if (self.size == self.dflt_size):
- return '%s = xc->readIntRegOperand(this, %d);\n' % \
- (self.base_name, self.src_reg_idx)
- elif (self.size > self.dflt_size):
- int_reg_val = 'xc->readIntRegOperand(this, %d)' % \
- (self.src_reg_idx)
- if (self.is_signed):
- int_reg_val = 'sext<%d>(%s)' % (self.dflt_size, int_reg_val)
- return '%s = %s;\n' % (self.base_name, int_reg_val)
- else:
- return '%s = bits(xc->readIntRegOperand(this, %d), %d, 0);\n' % \
- (self.base_name, self.src_reg_idx, self.size-1)
+ int_reg_val = 'xc->readIntRegOperand(this, %d)' % self.src_reg_idx
+ return '%s = %s;\n' % (self.base_name, int_reg_val)
def makeWrite(self):
if (self.ctype == 'float' or self.ctype == 'double'):
error('Attempt to write integer register as FP')
if self.write_code != None:
return self.buildWriteCode('setIntRegOperand')
- if (self.size != self.dflt_size and self.is_signed):
- final_val = 'sext<%d>(%s)' % (self.size, self.base_name)
- else:
- final_val = self.base_name
wb = '''
{
%s final_val = %s;
xc->setIntRegOperand(this, %d, final_val);\n
if (traceData) { traceData->setData(final_val); }
- }''' % (self.dflt_ctype, final_val, self.dest_reg_idx)
+ }''' % (self.ctype, self.base_name, self.dest_reg_idx)
return wb
class FloatRegOperand(Operand):
func = 'readFloatRegOperand'
else:
func = 'readFloatRegOperandBits'
- if (self.size != self.dflt_size):
- bit_select = 1
- base = 'xc->%s(this, %d)' % (func, self.src_reg_idx)
if self.read_code != None:
return self.buildReadCode(func)
- if bit_select:
- return '%s = bits(%s, %d, 0);\n' % \
- (self.base_name, base, self.size-1)
- else:
- return '%s = %s;\n' % (self.base_name, base)
+ return '%s = xc->%s(this, %d);\n' % \
+ (self.base_name, func, self.src_reg_idx)
def makeWrite(self):
- final_val = self.base_name
- final_ctype = self.ctype
if (self.ctype == 'float' or self.ctype == 'double'):
func = 'setFloatRegOperand'
- elif (self.ctype == 'uint32_t' or self.ctype == 'uint64_t'):
- func = 'setFloatRegOperandBits'
else:
func = 'setFloatRegOperandBits'
- final_ctype = 'uint%d_t' % self.dflt_size
- if (self.size != self.dflt_size and self.is_signed):
- final_val = 'sext<%d>(%s)' % (self.size, self.base_name)
if self.write_code != None:
return self.buildWriteCode(func)
wb = '''
%s final_val = %s;
xc->%s(this, %d, final_val);\n
if (traceData) { traceData->setData(final_val); }
- }''' % (final_ctype, final_val, func, self.dest_reg_idx)
+ }''' % (self.ctype, self.base_name, func, self.dest_reg_idx)
return wb
class ControlRegOperand(Operand):
error('Attempt to read control register as FP')
if self.read_code != None:
return self.buildReadCode('readMiscRegOperand')
- base = 'xc->readMiscRegOperand(this, %s)' % self.src_reg_idx
- if self.size == self.dflt_size:
- return '%s = %s;\n' % (self.base_name, base)
- else:
- return '%s = bits(%s, %d, 0);\n' % \
- (self.base_name, base, self.size-1)
+ return '%s = xc->readMiscRegOperand(this, %s);\n' % \
+ (self.base_name, self.src_reg_idx)
def makeWrite(self):
if (self.ctype == 'float' or self.ctype == 'double'):
# Note that initializations in the declarations are solely
# to avoid 'uninitialized variable' errors from the compiler.
# Declare memory data variable.
- if self.ctype in ['Twin32_t','Twin64_t']:
- return "%s %s; %s.a = 0; %s.b = 0;\n" % \
- (self.ctype, self.base_name, self.base_name, self.base_name)
return '%s %s = 0;\n' % (self.ctype, self.base_name)
def makeRead(self):
return self.buildWriteCode()
return ''
- # Return the memory access size *in bits*, suitable for
- # forming a type via "uint%d_t". Divide by 8 if you want bytes.
- def makeAccSize(self):
- return self.size
-
class PCStateOperand(Operand):
def makeConstructor(self):
return ''
for (ext, (desc, size)) in user_dict.iteritems():
if desc == 'signed int':
ctype = 'int%d_t' % size
- is_signed = 1
elif desc == 'unsigned int':
ctype = 'uint%d_t' % size
- is_signed = 0
elif desc == 'float':
- is_signed = 1 # shouldn't really matter
if size == 32:
ctype = 'float'
elif size == 64:
ctype = 'double'
elif desc == 'twin64 int':
- is_signed = 0
ctype = 'Twin64_t'
elif desc == 'twin32 int':
- is_signed = 0
ctype = 'Twin32_t'
if ctype == '':
error(parser, lineno,
'Unrecognized type description "%s" in user_dict')
- operand_type[ext] = (size, ctype, is_signed)
+ operand_type[ext] = ctype
self.operandTypeMap = operand_type
attrList = ['reg_spec', 'flags', 'sort_pri',
'read_code', 'write_code']
if dflt_ext:
- (dflt_size, dflt_ctype, dflt_is_signed) = \
- self.operandTypeMap[dflt_ext]
- attrList.extend(['dflt_size', 'dflt_ctype',
- 'dflt_is_signed', 'dflt_ext'])
+ dflt_ctype = self.operandTypeMap[dflt_ext]
+ attrList.extend(['dflt_ctype', 'dflt_ext'])
for attr in attrList:
tmp_dict[attr] = eval(attr)
tmp_dict['base_name'] = op_name